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Course 4 - Building Site Management and Building Process with Timber

Site: Learn-Moodle
Course: Sustainable high-performance building solution in Wood (HiBiWood)
Book: Course 4 - Building Site Management and Building Process with Timber
Printed by: Vierailija
Date: Monday, 25 November 2024, 2:40 PM

Description

Cross-section model

Introduction

This course focuses on the management aspects of timber construction projects, covering the entire construction process from mapping and correlation of parameters to logistics, cost estimation, digital processes, and sustainability considerations. Participants will learn about the installation chronology of load-bearing construction elements on the building site, moisture management, cost estimation for building life cycle assessment, BCF (Building Information Modeling, Construction, Facility Management) workflows, logistics, and best-practice examples of large-scale international timber projects. The course also emphasizes the importance of sustainability concepts, including recyclability and dismantling strategies with timber.

Learning objectives:

By the end of the course, the students will be able to:

  • Map the timber construction process, understand its stages, and identify the key parameters that impact the project's success.
  • Understand the installation chronology of load-bearing construction elements on the building site and ensure proper sequencing for a smooth construction workflow.
  • Estimate costs for building life cycle assessment, considering dimensions, transport, montage, logistics, and the overall economic viability of timber construction projects.
  • Understand sustainability concepts related to timber construction, including recyclability and dismantling strategies, and integrate them into project planning and execution.
  • Understand the management of timber construction projects, while considering environmental, economic, and logistical factors.


Table of contents

1. Mapping the timber construction process

Mapping the timber construction process involves outlining the step-by-step journey from project conception to the completed timber-based building. It starts with conceptualizing the design, considering architectural vision, and choosing timber as the primary building material. Structural analysis and engineering are then conducted to determine load requirements and select the appropriate timber structural system. Detailed design plans and 3D BIM models are created to specify dimensions, materials, and connections. Timber procurement involves sourcing the required timber materials, considering factors like species and sustainability. Onsite construction commences with the assembly of timber components, followed by finishing and installation of interior elements. Throughout the process, quality control measures are implemented, and building authorities may conduct tests and inspections for compliance. Once complete, the timber structure is handed over for occupancy, and maintenance practices ensure its longevity and sustainability.

Mapping the timber construction process- Download

2. Correlation of building construction parameters

The correlation of building construction parameters refers to the interrelationships between various factors that influence the design, construction, and performance of a building. For example, the choice of building materials can impact the structural design and overall energy efficiency. Building size and orientation can affect natural lighting and solar gain, which, in turn, can influence HVAC system requirements. Understanding these correlations helps architects, engineers, and builders make informed decisions to create sustainable, cost-effective, and functional buildings.


Correlation of building construction parameters- Download

3. Building systems and Site quality control

Building systems and site quality control are integral aspects of construction that ensure the successful implementation and performance of a building project. Building systems encompass various elements, including structural, mechanical, electrical, and plumbing systems, which must be carefully designed and integrated to work harmoniously. Quality control on the construction site involves implementing rigorous inspection and testing procedures to verify that materials, workmanship, and installations meet the specified standards and regulatory requirements. Adherence to quality control measures during the construction process helps identify and rectify potential issues, ensuring the safety, durability, and functionality of the building systems and overall project.


Building systems and Site quality control- Download

4. Moisture management on a building site

Moisture management on a building site is a crucial aspect of construction to prevent moisture-related issues and ensure the long-term durability of the building. Effective moisture management begins with proper site preparation, including grading and drainage to direct water away from the building's foundation. The use of moisture barriers and waterproofing membranes during construction helps create a protective layer against water infiltration.

Construction materials and components should be stored in a dry and covered area to prevent moisture absorption. During construction, efforts should be made to minimize exposure of the building envelope to rain and other moisture sources. Regular inspections and prompt repair of any water leaks or damage are essential to prevent moisture from entering the building and causing potential issues like mold growth, decay, or structural damage.

Moreover, well-ventilated and insulated spaces help reduce condensation and humidity levels within the building. By implementing comprehensive moisture management strategies, construction professionals can ensure that the building remains dry, stable, and free from moisture-related problems, contributing to its overall longevity and performance.


Moisture management on a building site- Download

5. Cost estimation for building life cycle assessment

Cost estimation for building life cycle assessment involves evaluating the total expenses incurred over a building's entire life cycle, including construction, operation, maintenance, and end-of-life phases. It requires considering the initial construction costs, ongoing operational expenses, maintenance and renovation costs, and eventual demolition or deconstruction expenses. By conducting a comprehensive life cycle cost analysis, stakeholders can make well-informed decisions to optimize economic efficiency, sustainability, and long-term value in building projects.


6. Cost estimation: Dimensions, transport, montage, and logistics

Cost estimation for building projects involves analyzing dimensions, transport, montage, and logistics to determine the overall expenses. The size and complexity of the building directly impact construction costs, with larger and more intricate structures generally requiring higher budgets. Transport costs are influenced by the distance between the construction site and material suppliers, while efficient montage techniques and well-managed logistics can reduce labor expenses and ensure timely material delivery, optimizing cost-effectiveness. By carefully evaluating these factors, accurate cost estimates can be generated, aiding in budget planning and project execution.

Cost estimation: Dimensions, transport, montage, and logistics- Download

7. BCF workflow and digital processes (coordination, construction, maintenance)

BCF (BIM Collaboration Format) is a standard file format used in Building Information Modeling (BIM) to facilitate coordination and collaboration among project stakeholders throughout the building's lifecycle. BCF workflow and digital processes play a vital role in coordination, construction, and maintenance phases of a building project.

  1. Coordination: BCF enables effective communication and collaboration among architects, engineers, contractors, and other team members. It allows users to create BCF issues to document clashes, design inconsistencies, or other coordination challenges identified during the design phase. These issues are then shared and resolved collaboratively, streamlining the coordination process.

  2. Construction: BCF continues to be valuable during the construction phase. Contractors can use BCF to communicate design changes, resolve on-site issues, and coordinate with subcontractors. The digital process ensures that everyone is working with the latest design information, reducing errors and rework.

  3. Maintenance: After construction, BCF remains relevant for building maintenance and facilities management. BCF issues can be used to document and track maintenance needs, repairs, or updates. The digital process enables facility managers to access the BIM model and associated data, facilitating efficient maintenance planning and scheduling.

Overall, BCF workflow and digital processes enhance collaboration, improve communication, and optimize the building's entire lifecycle, leading to more efficient and sustainable construction and maintenance practices.


8. Logistics – transportation, montage, timeline, coordination of companies

Logistics in construction encompasses transportation of materials, assembly (montage), timeline management, and coordination of different companies involved in the project. It involves efficient planning and execution to ensure timely delivery of materials, smooth assembly processes, adherence to project timelines, and effective collaboration among all stakeholders. Proper logistics play a critical role in ensuring a streamlined construction process, cost-effectiveness, and successful project completion.


9. Best-practice examples of large-scale international projects in timber (Holzbau presentation)

As a company in the timber industry, understanding and showcasing best-practice examples of large-scale international projects hold immense significance in our corporate presentations. These examples serve as powerful illustrations of our commitment to sustainability, innovation, and responsible business practices.

Highlighting best-practice examples of large-scale international timber projects in private company presentations is not just about showcasing achievements; it is about sharing our vision for a sustainable and innovative future. By inspiring trust, promoting sustainability, encouraging innovation, and supporting industry growth, we can position ourselves as leaders in the timber sector and actively contribute to a better world.

Best-practice examples of large-scale international projects in timber (Holzbau presentation)- Download

10. Sustainability concept – recyclability and dismantling strategies with timber*

The sustainability concept of recyclability and dismantling strategies with timber focuses on designing buildings that can be easily deconstructed and their materials reused or recycled at the end of their life cycle. Timber, as a renewable and biodegradable material, lends itself well to such strategies. Buildings constructed with timber can be carefully disassembled, allowing for the salvage and repurposing of timber components. This approach minimizes waste, reduces environmental impact, and promotes a circular economy, where timber materials can be used in new construction or other applications, extending their useful life and supporting sustainable practices in the construction industry.